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1                                              EPCR and EPCR-bound ligands were endocytosed rapidly via
2                                              EPCR and its ligand APC promote cell survival that contr
3                                              EPCR deficiency attenuated the elaboration of interleuki
4                                              EPCR deficiency in FVIII-/- mice significantly reduced t
5                                              EPCR expression was markedly decreased in the colon muco
6                                              EPCR is a major histocompatibility complex-like molecule
7                                              EPCR is detected in the giant trophoblast cells at the f
8                                              EPCR plays a crucial role in the protein C anticoagulant
9                                              EPCR structure contains a hydrophobic groove filled with
10                                              EPCR(-/-) mice were more susceptible to dextran sulfate
11                                              EPCR(R84A/R84A) mice are viable and reproduce normally.
12                                              EPCR(R84A/R84A) mice challenged with lipopolysaccharide
13                                              EPCR-dependent protein C activation and APC antiapoptoti
14                                              EPCR-mediated FVIIa endocytosis/recycling also resulted
15                                              EPCR/APC is a novel target of relevance in the clinical
16 abundance of parasite PfEMP1 DC8 and group A EPCR-binding domains.
17                                           Ad.EPCR treatment elicited recruitment of macrophages and N
18                                           Ad.EPCR treatment resulted in a marked increase in tumor ce
19                 Intrapleural injection of Ad.EPCR into mice with an established MPM originating from
20        The acquisition of antibodies against EPCR-binding CIDRalpha1 domains of PfEMP1 after a severe
21 dependent of PC interaction, we generated an EPCR point mutation knock-in mouse (EPCR(R84A/R84A)) whi
22  may include the inhibition of NETosis in an EPCR-, PAR3-, and Mac-1-dependent manner, providing addi
23 new paradigm for understanding how PAR-1 and EPCR participate in protective signaling events in endot
24 e PfEMP1s, predicted to bind both ICAM-1 and EPCR, is associated with increased risk of developing ce
25  critical for its anticoagulant activity and EPCR-dependent barrier protection, had no effect on its
26 cause mFVIIa-FMR models the TF-dependent and EPCR binding properties of rhFVIIa, our data unmask a no
27 nding to EPCR promotes EPCR endocytosis, and EPCR-mediated endocytosis may facilitate the transcytosi
28                                     EPCR and EPCR-bound ligands were endocytosed rapidly via a dynami
29 as induced in FVIII-/-, EPCR-/-FVIII-/-, and EPCR++FVIII-/- mice by needle puncture injury.
30     Our study reveals new roles for PAR1 and EPCR in controlling NO production to balance maintenance
31     Tie2 activation by FXa required PAR3 and EPCR.
32 oth protein C activation (thrombomodulin and EPCR) and APC cellular signaling (EPCR and PAR-1) pathwa
33 crease in PC activation not seen when TM and EPCR are anchored to distinct cell adhesion molecules.
34 ration of blocking antibodies against TM and EPCR significantly reduced CCM hemorrhage in Pdcd10 (ECK
35 sults in increased levels of vascular TM and EPCR, as well as in enhanced generation of activated pro
36 e pattern with VWF (paired t test for TM and EPCR, each P < .001; for VWF, P = .01).
37 orylation of Dab1 and GSK3beta, whereas anti-EPCR or anti-PAR1 blocking antibodies did not.
38 a required the enzymatic active site of APC, EPCR, and PAR-1, highlighting a key role for APC's cytop
39           Inhibition of NO production by aPC-EPCR-PAR1 signaling reduces progenitor cell egress from
40 silencing of EPCR expression or blocking APC/EPCR interaction reduced infiltration in the target orga
41           Signaling pathway triggered by APC/EPCR and its relevance in apoptosis was studied in vitro
42            Based on our findings, we believe EPCR represents the first known marker that 'explicitly'
43 n studies demonstrate an interaction between EPCR and S1P1 upon APC treatment.
44 se results suggest that a cross-talk between EPCR and an unknown FX/FXa receptor, which does not requ
45 an prothrombin Gla domain, which cannot bind EPCR or support protein S cofactor activity, has 22/45 r
46 hrocyte membrane protein 1) family that bind EPCR, including DC8 var genes that have previously been
47 th cerebral malaria were more likely to bind EPCR and ICAM-1 than IE from children with uncomplicated
48 esidue variant, PC(PT8), also failed to bind EPCR.
49 iduals in malaria-endemic regions that block EPCR binding of diverse CIDRalpha1 variants.
50    However, the V(gamma)4V(delta)5 TCR bound EPCR independently of lipids, in an antibody-like way.
51 ing by activated protein C through PAR1, but EPCR may have additional roles by interacting with the 4
52 e impairment of the thrombomodulin-protein C-EPCR anticoagulation pathway.
53 st to other stem cell markers, such as CD38, EPCR expression is maintained when cells are introduced
54                                          CHO-EPCR cells and human umbilical vein endothelial cells (H
55  We combine crystal structures of CIDRalpha1:EPCR complexes with analysis of 885 CIDRalpha1 sequences
56                                  Conversely, EPCR expression in the embryo, without expression in the
57                          In the last decade, EPCR has received wide attention after it was discovered
58 critical target of aPC therapy, and document EPCR-independent antiinflammatory effects of aPC on inna
59 . (2015) explore how diverse PfEMP1s embrace EPCR, promoting parasite survival and killing African ch
60 d hemophilia A (FVIII-/-) mice lacking EPCR (EPCR-/-FVIII-/-) or overexpressing EPCR (EPCR++ FVIII-/-
61 CR (EPCR-/-FVIII-/-) or overexpressing EPCR (EPCR++ FVIII-/-).
62                                  We examined EPCR levels using a microarray dataset of 107 patients.
63 oth muscle cells that constitutively express EPCR and TF, thrombin and FVIIa/FX but not FVIIa alone i
64 on in nonaggressive MPM cells that expressed EPCR and PAR1 with minimal levels of tissue factor did n
65 hat mice implanted with MPM cells expressing EPCR had elevated levels of IFNgamma and TNFalpha compar
66 s from E13.5, suggesting that extraembryonic EPCR expression may be essential for embryonic viability
67 PM cells that lack or express tissue factor, EPCR or PAR1, and an orthotopic nude mouse model of MPM.
68 udies also discovered additional ligands for EPCR, which include factor VIIa, Plasmodium falciparum e
69 s provide novel insights into mechanisms for EPCR multifunctionality.
70 confirming Leu-8 as the critical residue for EPCR recognition.
71      These data reveal an essential role for EPCR and PAR1 on hematopoietic cells, identify EPCR-expr
72 BM transplant experiments suggest a role for EPCR on hematopoietic stem cells and BM stromal cells in
73 hese findings suggest a detrimental role for EPCR-binding CIDRalpha1 domains in brain swelling.
74  observations open unsuspected new roles for EPCR in hemostasis, malaria pathogenesis, innate immunit
75  hemostatic levels of FVIIa displace PC from EPCR, and blockade of EPCR reduces the level of FVIIa ne
76 Ia), and intracellular trafficking of FVIIa, EPCR, and Rab proteins was evaluated by immunofluorescen
77      Joint bleeding was induced in FVIII-/-, EPCR-/-FVIII-/-, and EPCR++FVIII-/- mice by needle punct
78 ld-type mice into animals with hematopoietic EPCR deficiency restored the therapeutic efficacy of aPC
79 les showed a robust association between high EPCR levels and poor prognosis, particularly in stage I
80 tumor growth through PAR1, and they show how EPCR can attenuate the growth of tissue factor-expressin
81 he biochemical level, it remains unclear how EPCR interaction with its ligands at the cell surface im
82                            Understanding how EPCR-APC induces cytoprotective effects through activati
83  (DH) site mapping across 38 kb of the human EPCR gene (hEPCR) locus identified 3 potential regulator
84 CR and PAR1 on hematopoietic cells, identify EPCR-expressing dendritic immune cells as a critical tar
85  together, our studies suggest that impaired EPCR/PC-binding interactions not only result in procoagu
86 The development of hemophilic arthropathy in EPCR-overexpressing FVIII-/- mice did not significantly
87  importance of EPCR has been demonstrated in EPCR knockout mice which show early embryonic lethality
88 aria isolates had substantial differences in EPCR binding affinity and blockade activity for its liga
89 in intron 2, was primarily hypersensitive in EPCR-negative cells, and capable of initiating antisense
90                                       PCh in EPCR could be exchanged for lysophosphatidylcholine (lys
91 lished whether lipid exchange takes place in EPCR as a regulatory mechanism of its activity.
92 evelopment of milder hemophilic synovitis in EPCR-/-FVIII-/- mice.
93                               Interestingly, EPCR(R84A/R84A) mice develop splenomegaly as a result of
94 motes tumor cell apoptosis, and intrapleural EPCR gene therapy suppresses MPM progression.
95 xpressing tissue factor and PAR1 but lacking EPCR and PAR2 (F2RL1) generated large tumors in the pleu
96 ished MPM originating from MPM cells lacking EPCR reduced the progression of tumor growth.
97 red to mice implanted with MPM cells lacking EPCR.
98 nerated hemophilia A (FVIII-/-) mice lacking EPCR (EPCR-/-FVIII-/-) or overexpressing EPCR (EPCR++ FV
99  to in vivo challenge with LPS, mice lacking EPCR or PAR2 failed to fully initiate an interferon-regu
100 ated mice in which one allele of full-length EPCR was replaced by sEPCR (Procrs/+).
101 , increases retention of bone marrow NO(low) EPCR(+) LT-HSCs and protects mice from chemotherapy-indu
102 e maintenance and recruitment of bone marrow EPCR(+) LT-HSCs, with potential clinical relevance for s
103               It is unknown whether membrane EPCR (mEPCR) heterozygosity and/or physiologically eleva
104 logous to rhFVIIa, but binds poorly to mouse EPCR (mEPCR).
105 rated an EPCR point mutation knock-in mouse (EPCR(R84A/R84A)) which lacks the ability to bind PC/APC.
106  these domains mimic features of the natural EPCR ligand and can block this ligand interaction.
107 , PC(PT8/10) (L8V/H10K) displayed negligible EPCR affinity, despite normal binding to anionic phospho
108 activity index in the wild-type mice but not EPCR(-/-) mice.
109 D11b, PAR1, or sphingosine kinase-1, but not EPCR, abolished the ability of APC to suppress the macro
110   Bone marrow cells isolated on the basis of EPCR expression alone are highly enriched for hematopoie
111 nd subsequently fractionated on the basis of EPCR expression indicates that stem cell activity is alw
112 FVIIa displace PC from EPCR, and blockade of EPCR reduces the level of FVIIa needed for hemostasis in
113 vivo studies in mice showed that blockade of EPCR with EPCR-blocking antibodies impaired the early ph
114                  Thus, the colocalization of EPCR and PAR-1 in lipid rafts is a key requirement for t
115  multimolecular stress signature composed of EPCR and costimulatory ligand(s).
116 IIa, our data unmask a novel contribution of EPCR on the action of rhFVIIa administration in hemophil
117 ild-type CD11chi dendritic cells depleted of EPCR+ cells did not.
118              Malaria-associated depletion of EPCR, with subsequent impairment of the protein C system
119 h endothelial cells leads to dissociation of EPCR from caveolin-1 and recruitment of PAR-1 to a prote
120 hropathy, administration of a single dose of EPCR-blocking monoclonal antibodies markedly reduced hem
121  negative Rab5A inhibited the endocytosis of EPCR-FVIIa.
122             Here, we show that expression of EPCR and PAR1 on hematopoietic cells is required in mice
123  found significantly increased expression of EPCR and TM in the valvular sinus endothelium as opposed
124      More importantly, ectopic expression of EPCR in aggressive MPM cells attenuated their growth pot
125                                Expression of EPCR in mature murine immune cells was limited to a subs
126                   Heterologous expression of EPCR promoted PAR1 and PAR2 cleavage by FXa in the terna
127                          A small fraction of EPCR is also localized intracellularly in the recycling
128 is not sensitive to the cofactor function of EPCR.
129 malaria, and indicate that low impairment of EPCR function may contribute to parasite virulence.
130              The physiological importance of EPCR has been demonstrated in EPCR knockout mice which s
131  conventional dendritic cells independent of EPCR and suppressed IFN-gamma production by natural kill
132 rough the activation of PAR-2 independent of EPCR mobilization.
133 dels of TF signaling, antibody inhibition of EPCR selectively blocked PAR activation by the ternary T
134  that complementary receptor interactions of EPCR binding PfEMP1with ICAM-1 amplifies development of
135 ding to EPCR promoted the internalization of EPCR.
136 ed, cells with genetically reduced levels of EPCR no longer showed a signaling response to the ternar
137 s microvessels, we demonstrated that loss of EPCR and TM at sites of IE cytoadherence is detectible i
138                                  The loss of EPCR appeared to associate with increased disease index
139  CM showed cerebral fibrin clots and loss of EPCR, colocalized with sequestered IEs.
140 croscopy studies revealed that a majority of EPCR is localized on the cell surface in membrane microd
141  lipid exchange as a regulatory mechanism of EPCR activity driven by the endothelially expressed secr
142         Because of the pleiotropic nature of EPCR and TM, these data implicate disruption of the endo
143        Although engineered overexpression of EPCR fails to reproduce the effects of UM171 on HSC acti
144                  Moreover, overexpression of EPCR induced an increased metastatic activity to target
145 ted and endothelial cells in the presence of EPCR.
146 hibited the barrier-protective properties of EPCR in human brain endothelial cells in vitro.
147 edly expand our understanding of the role of EPCR in normal physiology and disease, as well as provid
148  provided conflicting data about the role of EPCR in SM.
149                In order to study the role of EPCR independent of PC interaction, we generated an EPCR
150   These results underpin the significance of EPCR binding in pediatric malaria patients that require
151                        In vivo, silencing of EPCR expression or blocking APC/EPCR interaction reduced
152  GTPases in the intracellular trafficking of EPCR and FVIIa.
153 the cellular localization and trafficking of EPCR in endothelial cells and a heterologous expression
154 rnalization and intracellular trafficking of EPCR-FVIIa.
155 apeutic efficacy of aPC, whereas transfer of EPCR-deficient CD11chi dendritic cells or wild-type CD11
156                             DSS treatment of EPCR(-/-) mice resulted in increased bleeding, bodyweigh
157               Comprehensive understanding of EPCR may lead to development of novel therapeutic modali
158 y in severe sepsis is predominantly based on EPCR- and PAR1-dependent cell signaling, and APC variant
159 strictly required for PL membrane binding or EPCR recognition.
160 ing EPCR (EPCR-/-FVIII-/-) or overexpressing EPCR (EPCR++ FVIII-/-).
161 otic challenge with factor Xa/phospholipids, EPCR(R84A/R84A) mice generate more thrombin, less APC, a
162  of endothelial protein C receptor-positive (EPCR(+)) LT-HSCs in the bone marrow and their recruitmen
163  should be mimicked in immunogens to prevent EPCR binding.
164 we found that the protein C receptor (ProcR; EPCR) was required for the normal in vivo and in vitro i
165 activated protein C binding to EPCR promotes EPCR endocytosis, and EPCR-mediated endocytosis may faci
166                      We next observed rapid, EPCR and PI 3-kinase-dependent, APC-mediated phosphoryla
167 e binding to endothelial protein C receptor (EPCR) and cleavage of protease activated receptor-1 (PAR
168  require the endothelial protein C receptor (EPCR) and protease activated receptor 1 (PAR1).
169 eptors, endothelial cell protein C receptor (EPCR) and protease-activated receptor 1 (PAR1).
170 ding to endothelial cell protein C receptor (EPCR) and subsequent protease activated receptor (PAR)-1
171 lin (TM) and endothelial protein C receptor (EPCR) and that low constitutive expression of these regu
172 egulation of endothelial protein C receptor (EPCR) and thrombomodulin protein expressions, inhibited
173          The endothelial protein C receptor (EPCR) appears to play an important role in Plasmodium fa
174     The endothelial cell protein C receptor (EPCR) augments protein C activation by the thrombin-thro
175  against the endothelial protein C receptor (EPCR) binding CIDRalpha1 domains, and this difference wa
176 dies to endothelial cell protein C receptor (EPCR) blocked effectively (125)I-FVIIa binding to HUVEC.
177 occupancy of endothelial protein C receptor (EPCR) by the Gla-domain of protein C/APC is responsible
178          The endothelial protein C receptor (EPCR) confers anti-inflammatory properties when bound by
179  the role of endothelial protein C receptor (EPCR) in hemophilic arthropathy.
180 sion of endothelial cell protein C receptor (EPCR) in MPM cells suppresses tumorigenicity.
181 ding to endothelial cell protein C receptor (EPCR) induces anti-inflammatory signaling and protects v
182         Endothelial cell protein C receptor (EPCR) is a multifunctional and multiligand receptor, whi
183 f PfEMP1 and endothelial protein C receptor (EPCR) is associated with severe childhood malaria.
184 e binding to endothelial protein C receptor (EPCR) is associated with severe disease has suggested ne
185          The endothelial protein C receptor (EPCR) is crucial for signaling by activated protein C th
186     The endothelial cell protein C receptor (EPCR) is expressed by endothelial cells of large blood v
187 ow that endothelial cell protein C receptor (EPCR) is specifically expressed by mouse CD8+ dendritic
188 otein C with endothelial protein C receptor (EPCR) leads to dissociation of the receptor from caveoli
189          The endothelial protein C receptor (EPCR) limits thrombus formation by enhancing activation
190      Loss of endothelial protein C receptor (EPCR) occurs at the sites of Plasmodium falciparum-infec
191  loss of the endothelial protein C receptor (EPCR) on brain vessels, caused by cytoadherent infected
192 APC) to endothelial cell protein C receptor (EPCR) on endothelial cells.
193 olecule endothelial cell protein C receptor (EPCR) on MCs.
194 t for either endothelial protein C receptor (EPCR) or PAR1 revealed that the EPCR-dependent signaling
195          The endothelial protein C receptor (EPCR) plays an important role in cardiovascular disease
196 e shown that endothelial protein C receptor (EPCR) polymorphisms and soluble EPCR levels are associat
197 vel APC-endothelial cell protein C receptor (EPCR) signaling pathway in endothelial cells.
198 cts with the endothelial protein C receptor (EPCR) through its gamma-carboxyglutamic acid (Gla) domai
199 ding of endothelial cell protein C receptor (EPCR) to its ligands is well characterized at the bioche
200         Endothelial cell protein C receptor (EPCR) was first identified and isolated as a cellular re
201  to the endothelial cell protein C receptor (EPCR), a cellular receptor for protein C and activated p
202 lates impair endothelial protein C receptor (EPCR), a protein involved in coagulation and endothelial
203 nteract with endothelial protein C receptor (EPCR), allowing infected erythrocytes to synergistically
204 ulin (THBD), endothelial protein C receptor (EPCR), and tissue factor pathway inhibitor (TFPI).
205  for soluble endothelial protein C receptor (EPCR), as demonstrated by surface plasmon resonance stud
206 domains bind endothelial protein C receptor (EPCR), CIDRalpha2-6 domains bind CD36, whereas the recep
207 lin (TM) and endothelial protein C receptor (EPCR), endothelial membrane proteins that partner in act
208 g the murine endothelial protein C receptor (EPCR), is expressed at high levels within the bone marro
209  suggest the endothelial protein C receptor (EPCR), known for its pivotal role in mediating cytoprote
210  require the endothelial protein C receptor (EPCR), protease-activated receptor (PAR) 1, and PAR3.
211 il receptors endothelial protein C receptor (EPCR), protease-activated receptor 3 (PAR3), and macroph
212 e quantified endothelial protein C receptor (EPCR), thrombomodulin (TM), and von Willebrand factor (V
213 rectly bound endothelial protein C receptor (EPCR), which allowed gammadelta T cells to recognize bot
214 pts encoding endothelial protein C receptor (EPCR)-binding domains, in combination with high parasite
215  through the endothelial protein C receptor (EPCR)-dependent cleavage of protease-activated receptor
216  through its endothelial protein C receptor (EPCR)-dependent cleavage of protease-activated receptor
217 nding to the endothelial protein C receptor (EPCR).
218  to the endothelial cell protein C receptor (EPCR).
219 , but not on endothelial protein C receptor (EPCR).
220 and the endothelial cell protein C receptor (EPCR).
221 lin (TM) and endothelial protein C receptor (EPCR).
222 ICAM-1), and endothelial protein C receptor (EPCR); however, cytoadhesion patterns typical for pediat
223 factor, endothelial cell protein C receptor (EPCR, PROCR), and protease activated receptor-1 (PAR1, F
224 ells express endothelial protein C receptor (EPCR/CD201/PROCR) when exposed to the hematopoietic stem
225 1 (PAR1) and endothelial protein C receptor (EPCR; also known as Procr).
226 ein C (PC) with the endothelial PC receptor (EPCR) enhances activated PC (APC) generation.
227 naling and the endothelial cell PC receptor (EPCR) prevented vascular leakage, and pharmacologic or g
228 or-alpha converting enzyme activity, reduced EPCR shedding, and restored plasma protein C level.
229  with activated protein C (aPC) that retains EPCR(+) LT-HSCs by limiting NO generation, reducing Cdc4
230                             scFv/TM and scFv/EPCR bound to mouse endothelial PECAM-1 with high affini
231 odulin and EPCR) and APC cellular signaling (EPCR and PAR-1) pathways are colocalized in the membrane
232  C receptor (EPCR) polymorphisms and soluble EPCR levels are associated with thrombotic diseases.
233 a, which also possesses Leu-8, bound soluble EPCR with similar affinity to wild-type protein C, colle
234 pite consistent findings of elevated soluble EPCR (sEPCR) in other infectious diseases, field studies
235 he major phospholipid bound to human soluble EPCR (sEPCR).
236 ationships between endogenous plasma soluble EPCR (sEPCR) levels and clinical presentation or mortali
237                    Here we show that soluble EPCR regulates the interaction of FX with human or mouse
238            There is a rationale for studying EPCR in hemophilia.
239                Consistent with the data that EPCR deficiency protects against developing hemophilic a
240               These results demonstrate that EPCR interacts with the ternary TF coagulation initiatio
241           In this study, we demonstrate that EPCR is associated with caveolin-1 in lipid rafts of end
242                          We demonstrate that EPCR occupancy recruits G-protein coupled receptor kinas
243           In vitro studies demonstrated that EPCR expression renders MPM cells highly susceptible to
244 mmary, our data provide direct evidence that EPCR plays a crucial role in regulating the inflammation
245 resent data provide convincing evidence that EPCR serves as a cellular binding site for FVII/FVIIa.
246               The present data indicate that EPCR could be an attractive new target to prevent joint
247        Altogether, our results indicate that EPCR is a reliable and cell culture-compatible marker of
248                   It is well recognized that EPCR promotes the activation of protein C (PC) to activa
249                         Here, we report that EPCR is expressed in the colon epithelial cells, CD11c(+
250                  However, they reported that EPCR blockade by itself did not reduce the severity of b
251   Immunohistochemical analyses revealed that EPCR expression in tumor cells reduced tumor cell prolif
252  thrombin infusion experiments revealed that EPCR heterozygosity (Procr+/-) impaired protein C activa
253 ansfected with PAR1 constructs revealed that EPCR occupancy initiates beta-arrestin-2 biased PAR1 sig
254               In summary, our data show that EPCR expression in MPM cells promotes tumor cell apoptos
255                In this article, we show that EPCR-positive UM171-treated cells, as opposed to EPCR-ne
256 main and dose titrations with FX showed that EPCR interacted primarily with FX to attenuate FX activa
257 lex to enable PAR signaling and suggest that EPCR may play a role in regulating the biology of TF-exp
258  after a severe malaria episode suggest that EPCR-binding PfEMP1 may have a role in the pathogenesis
259 in can also recruit thrombin to activate the EPCR-bound protein C, thereby eliciting PAR-1 signaling
260 iation complex of blood coagulation, and the EPCR-dependent activation of protease-activated receptor
261                              Deletion of the EPCR gene (Procr) in mice leads to embryonic lethality b
262 ons of FVIIa were found to impair partly the EPCR-dependent protein C activation and APC-mediated cel
263 f 885 CIDRalpha1 sequences, showing that the EPCR-binding surfaces of CIDRalpha1 domains are conserve
264  C receptor (EPCR) or PAR1 revealed that the EPCR-dependent signaling activity of APC is primarily re
265          Using peptides corresponding to the EPCR-binding region, antibodies can be purified from ind
266 en inhibits the host immune response via the EPCR.
267                                     When the EPCR was blocked, F. tularensis lost the ability to supp
268                                Antibodies to EPCR-binding domains increased from presentation to foll
269 d the binding affinities of protein C/APC to EPCR.
270 activated coagulation FVIIa can also bind to EPCR.
271          Pavani et al showed that binding to EPCR enhances the hemostatic effect of FVIIa in a mouse
272                             FVIIa binding to EPCR failed to accelerate FVIIa activation of factor X o
273                             FVIIa binding to EPCR is confirmed by demonstrating a marked increase in
274                             FVIIa binding to EPCR may promote the endocytosis of this receptor/ligand
275 t study, we show that FVIIa, upon binding to EPCR on endothelial cells, activates endogenous protease
276 Ia (FVIIa) or activated protein C binding to EPCR promoted the internalization of EPCR.
277 that FVIIa or activated protein C binding to EPCR promotes EPCR endocytosis, and EPCR-mediated endocy
278                The effects of APC binding to EPCR rapidly triggered Akt and extracellular signal-regu
279                             FVIIa binding to EPCR was shown to facilitate FVIIa endocytosis.
280 in protein C/APC that favor their binding to EPCR.
281 nsequences and relevance of FVIIa binding to EPCR.
282 as competitive inhibitors for APC binding to EPCR.
283 nt data provide evidence that FVIIa bound to EPCR on endothelial cells activates PAR1-mediated cell s
284 in C, and activated protein C (APC) bound to EPCR with similar affinity.
285 ces nitric oxide (NO) production, leading to EPCR shedding mediated by tumor necrosis factor-alpha-co
286                         Higher IgG levels to EPCR-binding CIDRalpha1 variants positively correlated w
287 -positive UM171-treated cells, as opposed to EPCR-negative cells, exhibit robust multilineage repopul
288 FVIIa-induced, barrier-protective effect was EPCR dependent and did not involve PAR2.
289                                   Thus, when EPCR is bound by protein C, the PAR-1 cleavage-dependent
290 structures beneath the plasma membrane where EPCR and FVIIa accumulated.
291 s attenuated their growth potential, whereas EPCR silencing in nonaggressive MPM cells engineered to
292 resses MPM tumor growth and evaluate whether EPCR gene therapy could suppress the progression of MPM
293                       Here, we study whether EPCR facilitates rhFVIIa hemostasis in hemophilia using
294  aimed to investigate the mechanism by which EPCR suppresses MPM tumor growth and evaluate whether EP
295 stem cell activity is always associated with EPCR-expressing cells.
296 -induced expression of TF and crosstalk with EPCR, PAR2, and TLR4 therefore appear necessary for the
297 es in mice showed that blockade of EPCR with EPCR-blocking antibodies impaired the early phase of FVI
298 or mechanism by which FVIIa interaction with EPCR contributes to the hemostatic effect of FVIIa in he
299 otential influence of FVIIa interaction with EPCR in the pathogenesis of hemophilic arthropathy and i
300  cells that had been stably transfected with EPCR compared with the wild-type.

 
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